A rapidly spinning body has energy though no external foces are activly acting upon it. In addition E=mc2 so there is a lot of energy tied up in the body's mass.
If no force is acting on a body, it can have stored energy. If no accelerating mass disturbs a body, it can have potential energy, which existence is unrelated to the existence of force around it.
A body in uniform motion has no net force acting on it. That means that either there are no forces at all, or else that all the forces acting on it add up to zero.
If the acceleration of a body is greater than the acceleration due to gravity, the body will start moving upward against the force of gravity. It may continue to accelerate if the net force acting on the body is greater than the force of gravity.
When a body is at rest, the forces acting on it are balanced. These can include gravitational force pulling the body downward and normal force exerted by the surface supporting the body. As long as these forces are equal and opposite, the body remains at rest.
The acceleration of a body is inversely proportional to its mass and directly proportional to the resultant force acting on it, as described by Newton's second law of motion: F = ma. This means that a lighter body will accelerate more for a given force compared to a heavier body.
The work done by the net force acting on a body results change only in its kinetic energy.The work done by the net force acting on a body results change only in its kinetic energy.
Yes, a force acting perpendicular to a horizontal force on a body can cancel out the horizontal force if the two forces are equal in magnitude and opposite in direction. This is known as the equilibrium condition, where the net force acting on the body is zero.
If no force is acting on a body, it can have stored energy. If no accelerating mass disturbs a body, it can have potential energy, which existence is unrelated to the existence of force around it.
A body in uniform motion has no net force acting on it. That means that either there are no forces at all, or else that all the forces acting on it add up to zero.
A force acting on a body accelerates it in the direction of the force.
"The condition of equilibrium or motion of a rigid body is remain unchanged, if a force acting on the rigid body is replaced by another force of the same magnitude and same direction but, acting anywhere along the same line of action."
If the acceleration of a body is greater than the acceleration due to gravity, the body will start moving upward against the force of gravity. It may continue to accelerate if the net force acting on the body is greater than the force of gravity.
A body is in equilibrium when the force on it is zero, thus if a single force is on the body, the force must be zero or the body will not be equilibrium.
When a body is at rest, the forces acting on it are balanced. These can include gravitational force pulling the body downward and normal force exerted by the surface supporting the body. As long as these forces are equal and opposite, the body remains at rest.
The acceleration of a body is inversely proportional to its mass and directly proportional to the resultant force acting on it, as described by Newton's second law of motion: F = ma. This means that a lighter body will accelerate more for a given force compared to a heavier body.
A body floats when the buoyant force acting on it (upward force exerted by a fluid) is greater than the force of gravity acting on it. This typically occurs when the body is less dense than the fluid it is placed in.
balancedforce means that the sum of force acting on the body is zero.and the body are in balanced